* predicate. The returned multimap is a live view of {@code unfiltered}; changes to one affect
   * the other.
   *
   * <p>The resulting multimap's views have iterators that don't support {@code remove()}, but all
   * other methods are supported by the multimap and its views. When adding a key that doesn't
   * satisfy the predicate, the multimap's {@code put()}, {@code putAll()}, and {@code

public class ApplicationTest {

    @Test
    public void simpleCheck() {
        int a = 1 + 1;
        assertThat(a).isEqualTo(2);
    }

    @Test
    public void renderTemplate() {
        Content html = views.html.index.render("Your new application is ready.");
        assertThat(contentType(html)).isEqualTo("text/html");
        assertThat(contentAsString(html)).contains("Your new application is ready.");
    }

 * </p>
 *
 * <ul>
 *     <li>a public type (can be fully or partially abstract)</li>
 *     <li>zero or more internal views (declared as interfaces)</li>
 *     <li>an optional delegate type (must be a concrete type)</li>
 * </ul>
 *
 * <p>
 * When a struct type node is projected as one of its views, each method in the view must be implemented. These bindings

        expect:
        def model = adapter.adapt(TestModel.class, protocolModel)
        model.project.is(model.project)
        model.children.is(model.children)
    }

    def "reuses views for each object in backing graph"() {
        TestProtocolModel protocolModel = Mock()
        TestProtocolProject protocolProject = Mock()
        _ * protocolModel.getProject() >> protocolProject

        sourceFiles("public", "shared")
    }

    List<SourceFile> getAppSources() {
        return sourceFiles("app").findAll {
            it.path != "app/views"
        }
    }

    List<SourceFile> getViewSources() {
        return sourceFiles("app/views");
    }

    List<SourceFile> getConfSources() {
        return sourceFiles("conf", "shared") + sourceFiles("conf")
    }

     * @param implementation the implementation class.
     */
    TypeBuilder<T> defaultImplementation(Class<?> implementation);

    /**
     * Allows type registration rules to add internal views to the registered type.
     * @param internalView the internal view class
     */
    TypeBuilder<T> internalView(Class<?> internalView);

#ifndef TENSORFLOW_C_EXPERIMENTAL_OPS_GEN_CPP_VIEWS_ARG_VIEW_H_
#define TENSORFLOW_C_EXPERIMENTAL_OPS_GEN_CPP_VIEWS_ARG_VIEW_H_

#include "tensorflow/c/experimental/ops/gen/cpp/views/arg_type_view.h"
#include "tensorflow/c/experimental/ops/gen/model/arg_spec.h"
#include "tensorflow/core/platform/types.h"

namespace tensorflow {
namespace generator {
namespace cpp {

class ArgView {
 public:

 * worse performance than data access by row key.
 *
 * <p>The methods returning collections or maps always return views of the underlying table.
 * Updating the table can change the contents of those collections, and updating the collections
 * will change the table.
 *
 * <p>All methods that modify the table are optional, and the views returned by the table may or may
 * not be modifiable. When modification isn't supported, those methods will throw an {@link

/**
 * The schema for a fully managed element. This means that we have control over all aspects of the lifecycle of the element: the actual
 * implementation of the element, plus the implementation and instantiation of views for the instance.
 */
public interface ManagedImplSchema<T> extends ModelSchema<T> {

   *
   * <p>A non-empty {@link SetMultimap} cannot be equal to a non-empty {@link ListMultimap}, since
   * their {@link #asMap} views contain unequal collections as values. However, any two empty
   * multimaps are equal, because they both have empty {@link #asMap} views.
   */
  @Override
  boolean equals(@CheckForNull Object obj);

  /**
   * Returns the hash code for this multimap.
   *